Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. An electronic device comprising: an upper cover unit including at least one first camera that faces a first direction; a plurality of second camera pairs disposed to face a second direction, and second cameras included in each of the second camera pairs being arranged to face directions that intersect each other; a housing including a plurality of first openings, to which the plurality of second camera pairs are coupled to be exposed to an outside; a first support member disposed in an accommodation space inside the housing, and providing a seating space for a printed circuit unit electrically connected with a connector of the upper cover unit; and a bracket coupled to a first opening in the housing to be at least partially exposed to the outside, and including at least one pair of second openings in each of which a pair of second cameras are seated; and a first sealing member disposed between the housing and the bracket.
This invention relates to an electronic device with an advanced camera system. The device includes an upper cover unit with at least one camera facing a first direction, such as forward. Additionally, multiple pairs of second cameras are arranged to face a second direction, with each pair's cameras oriented to intersect each other, enabling multi-directional or stereo imaging. The housing of the device has multiple openings where these camera pairs are mounted, allowing them to capture external images. Inside the housing, a support member provides space for a printed circuit unit, which connects to the upper cover unit via a connector. A bracket is attached to one of the housing's openings, partially exposed to the outside, and contains openings for seating the second camera pairs. A sealing member is placed between the housing and the bracket to prevent dust or moisture ingress. This design allows for a compact, multi-camera system with enhanced imaging capabilities while maintaining structural integrity and environmental protection.
2. The electronic device of claim 1 , further comprising: a second sealing member disposed between the bracket and each of the second cameras, wherein the second sealing member is in contact with a peripheral portion of each of the second openings to form a waterproof contact surface, thereby blocking entry of a fluid from the outside.
This invention relates to electronic devices with multiple cameras, particularly focusing on waterproofing mechanisms for camera modules. The device includes a housing with a bracket that supports multiple camera modules, including a primary camera and at least one secondary camera. The bracket has openings aligned with the cameras to allow light to pass through while maintaining structural integrity. A first sealing member is positioned between the bracket and the primary camera, forming a waterproof seal around its corresponding opening. Additionally, a second sealing member is placed between the bracket and each secondary camera, creating a waterproof contact surface around the peripheral portions of the secondary camera openings. These sealing members prevent fluid ingress, ensuring the device remains waterproof while accommodating multiple camera modules. The design ensures that the sealing members maintain tight contact with both the bracket and the camera modules, effectively blocking external fluids from entering the device. This solution addresses the challenge of maintaining waterproofing in electronic devices with multiple camera modules, where traditional sealing methods may not provide sufficient protection due to the increased number of openings.
3. The electronic device of claim 1 , wherein the bracket includes a pair of second seating recesses disposed to face different directions such that the pair of second cameras are seated in the pair of second seating recesses so as to face different directions.
This invention relates to electronic devices with multiple cameras, specifically addressing the challenge of mounting and aligning multiple cameras in a compact and stable configuration. The device includes a bracket designed to securely hold two cameras in a fixed positional relationship. The bracket features a pair of second seating recesses, each oriented to face a different direction. This arrangement allows the two cameras to be mounted in the recesses such that their viewing directions are diverging or converging, depending on the application. The bracket ensures precise alignment and stability for the cameras, which is critical for applications requiring multi-directional imaging, such as 3D imaging, panoramic photography, or depth sensing. The design minimizes mechanical stress on the cameras while maintaining their relative positions, improving reliability and performance. The bracket may also include additional features, such as mounting points or alignment guides, to further enhance stability and ease of installation. This solution provides a robust and adaptable way to integrate multiple cameras into electronic devices, ensuring optimal imaging performance in various orientations.
4. The electronic device of claim 3 , wherein the bracket includes a front portion including a first surface disposed to contact the housing and a rear portion including a second surface disposed to contact at least a portion of each of the second cameras, and the pair of second openings in the bracket are formed to penetrate the front portion and the rear portion.
This invention relates to electronic devices, specifically those with multiple cameras, addressing the challenge of securely mounting and aligning multiple camera modules within a compact housing. The device includes a housing containing a primary camera and a pair of secondary cameras. A bracket is provided to support and position the secondary cameras relative to the housing. The bracket has a front portion with a first surface that contacts the housing, ensuring stable structural integration. A rear portion of the bracket includes a second surface that contacts at least part of each secondary camera, providing precise alignment and mechanical support. The bracket features two openings that penetrate both the front and rear portions, allowing for electrical connections or optical pathways between the secondary cameras and internal components of the device. This design ensures proper positioning, protection, and functionality of the secondary cameras while maintaining a compact form factor. The bracket's dual-surface contact and integrated openings optimize space utilization and assembly efficiency.
5. The electronic device of claim 2 , wherein a plurality of the brackets are seated on the housing, the second cameras seated in different brackets have a first imaginary axis and a third imaginary axis, respectively, with respect to a lens center, and the first imaginary axis and the third imaginary axis face parallel directions.
This invention relates to electronic devices with multiple cameras, specifically addressing the challenge of aligning and positioning multiple camera modules within a housing. The device includes a housing and a plurality of brackets mounted on the housing, each bracket holding a camera module. The camera modules are positioned such that their optical axes, defined by imaginary lines extending from the lens centers, are parallel to each other. This parallel alignment ensures consistent image capture across multiple cameras, which is critical for applications like stereoscopic imaging, depth sensing, or multi-angle photography. The brackets provide structural support and precise positioning, allowing the cameras to maintain their relative orientations even under mechanical stress or vibration. The invention improves upon existing designs by ensuring that the optical axes of different cameras remain parallel, which enhances image quality and reduces distortion in multi-camera systems. This solution is particularly useful in smartphones, tablets, or other portable devices where space constraints and precise alignment are essential.
6. The electronic device of claim 3 , wherein coupling between the bracket and the second cameras is achieved through a fastening member that fastens the second cameras toward the second direction after the second cameras are seated in the second seating recesses, and coupling between the housing and the bracket in which the second cameras are seated is achieved through a fastening member that fastens the bracket in the first direction or the third direction after the bracket is seated in the first seating recess in the second direction.
This invention relates to an electronic device with a modular camera assembly. The device includes a housing with a first seating recess and a bracket with second seating recesses. The bracket is seated in the first seating recess in a second direction, and second cameras are seated in the second seating recesses. Fastening members secure the second cameras toward the second direction after seating, and additional fastening members secure the bracket in a first or third direction after the bracket is seated. The design allows for modular assembly of multiple cameras within the housing, ensuring precise alignment and stability. The fastening members provide secure coupling between the bracket and the cameras, as well as between the bracket and the housing, enabling efficient manufacturing and maintenance. The invention addresses the challenge of integrating multiple cameras into a compact electronic device while maintaining structural integrity and alignment. The modular approach simplifies assembly and disassembly, reducing production costs and improving repairability. The fastening mechanisms ensure that the cameras remain securely positioned during device operation, preventing misalignment or damage. This solution is particularly useful in devices requiring multiple cameras, such as smartphones, tablets, or other imaging systems.
7. The electronic device of claim 1 , further comprising: at least one phone holder disposed between the plurality of first openings in the housing, wherein the phone holder is disposed at a position corresponding to at least one hole disposed in the housing to be connected to the outside so as to allow a user's voice to be transferred, and includes at least one waterproof member that blocks entry of fluid from an outside through the hole.
This invention relates to an electronic device with enhanced waterproofing features, particularly for protecting internal components while allowing voice transmission. The device includes a housing with multiple openings and at least one phone holder positioned between these openings. The phone holder is aligned with a hole in the housing that connects to the external environment, enabling sound transmission for voice communication. To prevent fluid ingress, the phone holder incorporates at least one waterproof member that seals the hole while allowing acoustic signals to pass through. This design ensures that the device remains waterproof even when exposed to liquids, such as during outdoor use or accidental submersion, while maintaining audio functionality. The waterproof member may include materials or structures that block fluid entry while permitting sound waves, such as membranes or hydrophobic coatings. The phone holder's placement between the housing openings optimizes space utilization and ensures effective sealing. This invention addresses the challenge of maintaining waterproof integrity in electronic devices that require external sound transmission, such as smartphones or communication devices used in wet environments.
8. The electronic device of claim 1 , further comprising: a heat radiation plate disposed to enclose a rear portion of each of the second cameras, wherein the heat radiation plate is connected to the bracket so as to provide a heat transfer path that allows heat generated in the second cameras to transfer to the bracket via the heat radiation plate.
This invention relates to electronic devices with multiple cameras, specifically addressing heat dissipation challenges in secondary camera modules. The device includes a bracket supporting at least two cameras, where the second cameras (typically auxiliary or depth-sensing cameras) generate heat during operation. A heat radiation plate is positioned to enclose the rear portion of each second camera, directly interfacing with the bracket. This configuration creates a conductive heat transfer path, allowing heat from the second cameras to dissipate through the radiation plate and into the bracket. The bracket, likely made of a thermally conductive material, acts as a heat sink, spreading and dissipating the heat away from the camera modules. This design prevents overheating in compact electronic devices where multiple cameras are closely packed, ensuring stable performance and longevity of the camera components. The solution is particularly relevant for smartphones, tablets, or other portable devices with advanced imaging systems that require efficient thermal management.
9. An electronic device comprising: an upper cover unit including at least one first camera that faces a first direction; a housing including a plurality of brackets in each of which a pair of second cameras that face second directions are disposed, and a plurality of first openings such that the plurality of brackets are at least partially exposed to an outside; a first support member disposed in an accommodation space inside the housing so as to provide a seating space for a printed circuit unit; a lower cover unit disposed in a lower portion of the housing, and including at least one third opening exposed to the outside for connection to an external electronic device; and a second support member disposed between the lower cover unit and the first support member, and including at least one fourth opening disposed at a position corresponding to the third opening in the lower cover unit.
This invention relates to an electronic device with a multi-camera system and modular housing design. The device addresses the need for flexible camera configurations and efficient internal component organization. The upper cover unit includes at least one primary camera facing a first direction, providing a main imaging function. The housing features multiple brackets, each holding a pair of secondary cameras facing different directions, allowing for multi-angle capture. The housing also has openings to expose these brackets and cameras to the outside environment. Internally, a first support member creates a seating space for a printed circuit unit, ensuring proper component placement and stability. The lower cover unit, positioned at the bottom of the housing, includes an opening for connecting to external electronic devices. A second support member is placed between the lower cover and the first support member, with an additional opening aligned with the lower cover's opening to facilitate external connections. This design enables versatile camera arrangements while maintaining structural integrity and connectivity options.
10. The electronic device of claim 9 , wherein at least one first fastening hole is disposed at a side of an edge of the lower cover unit and at least one second fastening hole is provided on a side of a lower portion of the second support member at a position corresponding to the first fastening hole in the lower cover unit, and the electronic device further comprises a fastening member that passes through the first fastening hole and the second fastening hole so as to couple the lower cover unit and the second support member to each other.
This invention relates to the structural assembly of electronic devices, specifically addressing the need for secure and efficient coupling between a lower cover unit and a support member within the device. The problem being solved involves ensuring proper alignment and stable attachment of these components to maintain structural integrity and durability during use. The electronic device includes a lower cover unit and a second support member. At least one first fastening hole is positioned along an edge of the lower cover unit, while at least one second fastening hole is located on a lower portion of the second support member, aligned with the first fastening hole. A fastening member, such as a screw or bolt, is inserted through both holes to mechanically join the lower cover unit and the second support member. This design ensures precise alignment and a robust connection, preventing misalignment or detachment during device operation. The fastening member may be a screw, bolt, or other suitable fastener, and the holes are positioned to facilitate easy assembly while maintaining structural stability. The invention improves the reliability of electronic device construction by providing a secure and straightforward fastening mechanism between critical internal components.
11. The electronic device of claim 9 , wherein the lower cover unit includes at least one coupling recess at a position facing the second support member, the second support member includes a coupling hole disposed to be coupled with the coupling recess so as to form one fastening hole, and the electronic device further comprises a fastening member that is inserted into the lower cover unit and the second support member through the third opening, the fastening member being coupled to the fastening hole in a manner such that the fastening member is not exposed to an outer surface of the lower cover unit.
This invention relates to the structural design of electronic devices, specifically addressing the challenge of securely fastening internal components while maintaining a clean, uninterrupted outer surface. The device includes a lower cover unit and a second support member, where the lower cover unit has at least one coupling recess positioned to align with the second support member. The second support member features a coupling hole that aligns with the coupling recess to form a single fastening hole. A fastening member, such as a screw or bolt, is inserted through a third opening in the lower cover unit and passes through both the lower cover unit and the second support member. The fastening member is then secured into the fastening hole in a way that prevents it from being visible on the outer surface of the lower cover unit. This design ensures structural integrity while maintaining an aesthetically pleasing and seamless exterior. The fastening member is concealed, avoiding any protrusions or visible fasteners on the device's outer surface, which is particularly important for consumer electronics where appearance and durability are critical. The invention also ensures that the fastening mechanism is accessible for assembly and disassembly without compromising the device's structural stability.
12. The electronic device of claim 9 , further comprising: a heat radiation fin structure below the second support member and disposed to radiate heat generated from the printed circuit unit through a space between the second support member and the lower cover unit.
This invention relates to electronic device cooling systems, specifically addressing heat dissipation challenges in compact devices with limited internal space. The device includes a printed circuit unit generating heat during operation, a lower cover unit forming the device's base, and a second support member positioned between the printed circuit unit and the lower cover unit. The innovation introduces a heat radiation fin structure located below the second support member, designed to dissipate heat from the printed circuit unit through an open space between the second support member and the lower cover unit. This configuration enhances cooling efficiency by utilizing the available space beneath the support member, which would otherwise remain unused. The fin structure increases surface area for heat transfer, while the open space allows for natural or forced convection to carry away heat. This solution is particularly useful in thin or densely packed electronic devices where traditional cooling methods are constrained by spatial limitations. The design ensures effective heat dissipation without requiring additional bulky components, maintaining the device's compact form factor while improving thermal performance.
13. The electronic device of claim 9 , further comprising: a hinge structure disposed below the second support member to open/close a connector disposed on the printed circuit unit with respect to the outside, wherein the hinge structure includes a waterproof member that provides a protrusion that forms a waterproof contact point by coming into contact with a peripheral surface of at least one hole in the second support member, which is disposed on a same line as the connector.
This invention relates to electronic devices with hinged connectors, addressing the challenge of maintaining waterproofing while allowing access to internal components. The device includes a printed circuit unit with a connector that can be opened or closed relative to the outside environment. A hinge structure is positioned below a second support member, enabling the connector to be exposed or concealed. The hinge structure incorporates a waterproof member designed to seal the connector area. This waterproof member features a protrusion that creates a waterproof contact point by engaging with the peripheral surface of at least one hole in the second support member. The hole is aligned with the connector, ensuring proper sealing when the connector is closed. The hinge structure allows the connector to be accessed when needed while maintaining waterproof integrity when closed, preventing water ingress into the device. The waterproof member's protrusion ensures a tight seal around the hole, enhancing the device's durability in wet conditions. This design is particularly useful for portable or outdoor electronic devices where exposure to moisture is a concern.
14. The electronic device of claim 9 , wherein the upper cover unit includes a first cover portion in which at least one hole is disposed so as to expose a data input/output unit and the first camera, and a second cover portion disposed below the first cover portion, the data input/output unit and the first camera being seated in the second cover unit to face the first direction, and the electronic device further comprises a third sealing member disposed between the first cover portion and the second cover portion, and a fourth sealing member disposed between the second cover unit and the housing.
This invention relates to an electronic device with an improved sealing structure for protecting internal components while allowing access to a data input/output unit and a camera. The device includes a housing and an upper cover unit that seals the housing. The upper cover unit has a first cover portion with at least one hole to expose the data input/output unit and a first camera. Below the first cover portion is a second cover portion, which seats the data input/output unit and the first camera, orienting them to face a first direction. The device also includes a third sealing member between the first and second cover portions to prevent dust or moisture ingress, and a fourth sealing member between the second cover portion and the housing for additional sealing. This design ensures environmental protection while maintaining functionality of the exposed components. The sealing members are strategically placed to create a watertight or dustproof barrier, enhancing durability in harsh conditions. The invention addresses the challenge of sealing electronic devices with exposed functional elements, such as cameras and data ports, by using a multi-layered sealing approach.
15. The electronic device of claim 9 , wherein the printed circuit unit includes a main printed circuit board disposed between the first support member and the second support member, and a sub-printed circuit board disposed on the first support member to be perpendicular to the main printed circuit board.
This invention relates to electronic devices with improved structural and electrical connectivity designs. The problem addressed is the need for compact, efficient layouts in electronic devices that require multiple circuit boards while maintaining structural integrity and reliable electrical connections. The electronic device includes a housing with first and second support members that provide structural support. A printed circuit unit is integrated into the housing, featuring a main printed circuit board positioned between the first and second support members. This main board serves as the primary electrical hub, connecting to other components within the device. Additionally, a sub-printed circuit board is mounted on the first support member and oriented perpendicularly to the main board. This perpendicular arrangement optimizes space utilization and allows for efficient routing of electrical signals between the boards. The sub-printed circuit board may include a flexible portion that facilitates its connection to the main board, ensuring reliable electrical continuity while accommodating mechanical stress. The support members may be part of a housing structure, such as a metal frame, that enhances rigidity and heat dissipation. The design allows for a compact, modular assembly where the sub-board can be easily attached or detached, simplifying manufacturing and maintenance. This configuration is particularly useful in portable or handheld devices where space and weight are critical constraints.
16. The electronic device of claim 15 , further comprising: at least one heat radiation fin structure disposed above the first support member adjacent to at least one hole of the first support member; and a heat radiation plate structure disposed below the first support member and having at least one heat pipe mounted along a heat source path on the main printed circuit board.
This invention relates to thermal management in electronic devices, specifically addressing heat dissipation challenges in compact electronic systems. The device includes a support structure with integrated heat dissipation features to improve cooling efficiency. A first support member is positioned above a main printed circuit board (PCB) and includes at least one hole to facilitate airflow or heat transfer. Adjacent to this hole, at least one heat radiation fin structure is disposed above the support member to enhance convective cooling. Below the support member, a heat radiation plate structure is mounted, incorporating at least one heat pipe aligned along a heat source path on the PCB. The heat pipe actively transfers heat away from critical components, while the fin structure and plate work together to dissipate heat more effectively. This design optimizes thermal performance in space-constrained devices by combining conductive and convective cooling mechanisms. The invention is particularly useful for high-performance electronics where efficient heat dissipation is critical to maintaining operational stability and longevity.
17. The electronic device of claim 16 , wherein the heat radiation fin structure includes a plurality of fins that protrude in the first direction, and radiates heat transferred to the printed circuit unit to the outside via the accommodation space.
This invention relates to electronic devices with improved heat dissipation. The problem addressed is the accumulation of heat in electronic devices, particularly in components like printed circuit units, which can degrade performance and reliability. The solution involves a heat radiation fin structure integrated into the device to enhance cooling efficiency. The electronic device includes a housing with an accommodation space and a printed circuit unit mounted inside. The heat radiation fin structure is positioned to radiate heat from the printed circuit unit to the outside environment. The fin structure consists of multiple fins that protrude in a first direction, increasing the surface area for heat dissipation. The fins are designed to efficiently transfer heat from the printed circuit unit to the surrounding air or other cooling medium within the accommodation space, ensuring effective thermal management. The structure may also include additional features like airflow channels or thermal interface materials to further improve heat transfer. This design helps maintain optimal operating temperatures, extending the lifespan and performance of the electronic device.
18. An electronic device comprising a bracket, wherein the bracket includes: a front portion including a first surface that is in contact with a first opening of a housing; a rear portion including a second surface disposed to be in contact with at least a portion of a pair of cameras; and a pair of second openings formed to penetrate the front portion and the rear portion, and wherein the second openings are disposed to form a predetermined angle such that the pair of cameras face different directions, and lenses of the pair of camera are exposed to an outside through the second openings.
This invention relates to electronic devices with dual-camera systems, specifically addressing the challenge of integrating multiple cameras in a compact housing while ensuring proper alignment and exposure. The device includes a bracket designed to securely mount and position a pair of cameras within a housing. The bracket has a front portion with a surface that interfaces with an opening in the housing, ensuring structural stability and proper positioning. A rear portion of the bracket includes a surface that contacts at least part of the cameras, providing support and alignment. The bracket features two openings that penetrate both the front and rear portions, allowing the camera lenses to be exposed externally. These openings are angled to direct the cameras in different directions, enabling multi-directional imaging. The design ensures that the cameras remain securely mounted while maintaining precise alignment for optimal functionality. This solution simplifies assembly and improves reliability in electronic devices with dual-camera configurations.
19. The electronic device of claim 18 , wherein the front portion of the bracket has an outer diameter that is smaller than an outer diameter of the rear portion.
This invention relates to an electronic device with an improved bracket design for mounting components. The problem addressed is the need for a bracket that securely holds electronic components while allowing efficient assembly and disassembly. The bracket has a front portion and a rear portion, where the front portion has a smaller outer diameter than the rear portion. This tapered design facilitates easier insertion and alignment of components during assembly, while the larger rear portion provides enhanced stability and support. The bracket may be used to mount various electronic parts, such as circuit boards, sensors, or connectors, within a device housing. The tapered front portion reduces the risk of misalignment or damage during installation, while the wider rear portion ensures a firm fit and prevents loosening over time. The bracket may be made from a rigid material, such as metal or high-strength plastic, to withstand mechanical stress and environmental factors. This design is particularly useful in compact electronic devices where space is limited, as it optimizes component placement and structural integrity. The invention improves manufacturing efficiency by simplifying assembly processes and reducing the likelihood of defects.
Unknown
August 27, 2019
Browse 5M+ US patents with plain-English claim translations and AI-generated analysis.